Maury MW - USB Power Sensors - RTP4000 Series
- 4 kHz to 6 GHz and 10 MHz to 6, 18, and 40 GHz power sensors
- -60 dBm to +20 dBm dynamic range
- Pulse, Average, CW and Modulation modes
- True average measurements with essentially no modulation bandwidth limitations
- Real-Time Power Processing™ technology for virtually no gaps in signal acquisition and zero measurement latency
- 100,000 measurements per second
- Synchronized multi-channel measurements
- Suite of advanced measurement and analysis software
RTP4000 true average power sensors provide 80 dB dynamic range and a frequency range down to 4 kHz and up to 40 GHz. Built with Real-Time Power ProcessingTM, these sensors deliver 100,000 measurements per second, virtually no gaps in signal acquisition and zero measurement latency. Combining this performance with pulse profiling, capture and measure of pulsed, CW and modulated signals, multi-channel capabilities and documentation tools, RTP4000 average power sensors are the ideal instrument for fast, accurate and reliable RF power measurements.
Real-Time Power ProcessingTM
Real-Time Power ProcessingTM (RTPP) technology is a unique parallel processing methodology that performs the multi-step process of RF power measurement at incredible, unmatched speeds. While conventional power meters and USB sensors perform steps serially, resulting in have long re-arm times and missed data Maury sensors with RTPPTM capture, display and measure every pulse, glitch and detail with no gaps in data and zero latency.
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Frequency Range |
Measurement Range |
Measurement Speed |
|
4 kHz to 40 GHz |
4 kHz to 40 GHz |
100,000 per second |
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Maury Microwave
Maury Microwave is a pioneering leader in the design and manufacture of precision RF and Microwave calibration, test & measurement, and modeling solutions that are powering global efforts toward a more secure, more connected, future.
Maury Microwave offers Measurement and Modeling Device Characterization Systems and Services including nonlinear passive, active and hybrid-active fundamental and harmonic load pull, non-50Ω X-Parameter modeling, pulsed IV Pulsed s-parameters and compact transistor modeling, and patent-pending ultra-fast/accurate noise parameters.